Method of producing a composite multi-layered printed absorbent article

ABSTRACT

A method for producing a composite multi-layered absorbent article. At least two of the layers include a colored region.

FIELD OF THE INVENTION

Disclosed is a method for producing an absorbent article having multiplelayers, wherein at least one of the layers is a composite.

BACKGROUND OF THE INVENTION

Composites of webs, such as films and fibrous webs are used in absorbentarticles. For example, nonwoven webs are often combined with polymerfilms such that they are useful as materials in absorbent articles, suchas backsheets on disposable absorbent diapers. In such composites thenonwoven portion can provide softness while the film portion can providefor fluid impermeability.

Composites in which nonwoven fibers protrude through a polymer film canbe useful for providing an absorbent structure in which the nonwovenacts as the conveyor of fluid from one side of the polymer film to theother. The composite can be structured such that the fluid collectingside of the composite is the polymer film and nonwoven fibers protrudethrough the polymer film to the fluid collecting side of the composite.For example, in a sanitary napkin or diaper, such a composite can bepractical for use as a topsheet that transports fluid from the bodyfacing surface of the sanitary napkin more deeply into the sanitarynapkin towards the absorbent core. If a composite is used in anabsorbent article, such as a sanitary napkin, diaper, or tampon, thismay result in the retained fluid appearing as a stain on the body facingsurface of the composite. Stains of menses, vaginal discharge, urine,and feces may not be viewed favorably by the wearer of the absorbentarticle.

Colored regions have been used to help mask absorbed bodily fluid, forinstance menses or urine, collected by absorbent articles. The abilityto mask the absorbed bodily fluids provides a wearer with an increasedfeeling of cleanliness and protection from soiled undergarments.Further, a colored region positioned in a secondary layer of the centralregion of an absorbent article, provides a desired visual impression ofdepth to a wearer. This perception of absorbent article depth increasesa wearer's confidence in the absorption capacity of the absorbentarticle, resulting in increased confidence that bodily fluids will besuccessfully absorbed and stored; thereby reducing the chance of soiledundergarments.

However it has been difficult to produce absorbent articles having thedesired colored regions. One of the difficulties has been providing thecentral region of an absorbent article with a colored region that willprovide the desired coverage; as some wearers associate stain patternsthat extend outside the central colored region as indicating that theabsorbent capacity of the absorbent article is exhausted. In someabsorbent articles, the central colored region could account for lessthan 25% of the absorbent capacity of the absorbent article. Mostdigital printers lack the width-wise spray area to provide the desiredcolored region width to the central region, especially if products areproduced multi-lane or broad front, where two or more products aresimultaneously on the production line. One attempted fix has been to tryand arrange multiple digital printers in a side-by-side arrangement toprovide increased spray area in the widthwise direction of the absorbentarticle. The rearrangement of the digital printers has not provided thedesired results. The side-by-side arrangement increases the cost of thedigital printers and further decreases the reliability of the printingprocess. If one of the coupled printheads in the width direction fails,the production line stops. Image quality is also at risk as the multipledigital printers must be coordinated to produce a colored region that isnot noticeably offset in the machine direction. As the colored region ison or close to the absorbent article surface any errors are quicklynoticed by a wearer, reducing or eliminating the benefits provided bycolored regions.

Another attempt to provide colored regions having the desired coveragearea has been to use a contact method of printing, such as flexographicprinting. Contact printing has traditionally been an economical way toprint large or wide patterns on an absorbent article with reproducibleresults. However, contact printing may result in higher initial expensebecause the specific pattern rolls, plates, or screens must bemanufactured. Because of the custom manufacturing, subsequent changes tothe print pattern may require the manufacture of new equipment and maylimit the economic feasibility of quickly changing the print pattern forspecific needs or limited production situations. A further issue is thatcontact printing does not work equally well with all substrates. Forexample, to create the visual perception of depth the central portionwill be printed on to create a central colored region. However to createthe visual perception of depth, a layer below the surface layer (toplayer) is printed to produce the central colored region. In general thelayers below the surface layer include “dusty” or “loose” non-woven orcellulose containing web materials that cannot be printed on using acontact method, as the loose fiber sticks to the print plate resultingin light or missing print.

In a further effort to provide the desired colored regions to anabsorbent article, multiple printing processes have been used during theproduction of an absorbent article. These multiple printing processeshave several shortcomings. In one method a single layer is printed onmultiple times. However, printing on a single layer of an absorbentarticle multiple times does not provide a perception of depth thatprinting on multiple layers does. Another method involves printing onmultiple layers of an absorbent article after they have been brought incontact with one another. This reduces the surfaces which can beprinted, restricting printed webs to being in contact with one another,thus the perception of depth is lost. An additional method usespreprinted rolls of materials to produce absorbent articles. However theuse of preprinted rolls increases the cost of the absorbent articles dueto supply chain complexity and increased product scrap linked toregistration of the image(s) in the preprinted roll.

Therefore there is a need for a method of producing absorbent articleshaving colored regions on multiple layers, one of which is a compositelayer, such that the colored regions provide a visual perception ofdepth and sufficient coverage to at least partially mask absorbed bodilyfluids.

SUMMARY OF THE INVENTION

A method of producing a multi-layered absorbent article having two ormore colored regions is provided.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic representation of one embodiment of the presentinvention.

FIG. 2 is a schematic representation of a flexographic printing processof the present invention.

FIG. 3 is a schematic representation of a gravure printing process ofthe present invention.

FIG. 4 is a perspective view of a combination apparatus used in thepresent invention.

FIG. 5 is a perspective view of a composite substrate.

FIG. 6 is an enlarged view of a portion of the composite substrate shownin FIG. 5.

FIG. 7 is a schematic of an absorbent article.

FIG. 8 is a cross-section of the absorbent article illustrated in FIG.7.

FIG. 9 is a schematic of the lower substrate of the absorbent article ofFIG. 7.

FIG. 10 is a schematic of the composite substrate of the absorbentarticle of FIG. 7.

DETAILED DESCRIPTION OF THE INVENTION

The present invention relates to a method of producing a printedmulti-layered absorbent article on a converting line. A first precursorweb is supplied to a converting line and printed with a first coloredregion using a contact method of printing, for instance, flexographicprinting, rotogravure printing, offset printing, lithographic printing,screen printing, or the like. The first precursor is then combined witha second precursor web to form a composite substrate, such as atopsheet. A lower substrate, such as a non-woven or cellulose basedsecondary topsheet is also supplied to the converting line and printedwith a second colored region using a non-contact method of printing,such as, for example, wax jet printing, ink jet printing, bubble jetprinting, laser jet printing, or the like. Following the printing stepsthe composite substrate and lower substrate are combined in the processof producing an absorbent article, such as a feminine sanitary napkin.

As used herein the term “converting line” means a manufacturing lineused to make absorbent articles. The purpose of a converting line is totake raw materials, process and combine them to produce absorbentarticles. A converting line comprises various unit-operations used inthe production of absorbent articles. A unit-operation can range fromsimple actions such as raw material transport (unwind, meter,reposition, and the like) to complex material transformations (melting,cutting, stretching, fluid application (ink, lotion, adhesive), and thelike). In the converting line many unit-operations are occurring inparallel as well as in sequence to produce an absorbent article.

As used herein, the term “print” or “printing” means to produce acolored region on a substrate. Frequently, printing involves formationof a colored region by the transfer of pigment, colorant, or brightenerin the form of ink, wax, paint, or the like to a substrate. The printedcolored region is visible to the human eye and can include, for example,shapes, patterns, designs, objects, likenesses of real or fictitiouscharacters, or the like, or combinations thereof. Examples of printingmethods include contact printing and non-contact printing. Contactprinting includes the direct transfer of pigment from a print roll,plate, or screen to a substrate. In non-contact printing methods, theprinting apparatus does not directly contact the substrate, for examplewhen printing from ink jet printers, wax jet printers, bubble jetprinters, laser jet printers, or the like, or combinations thereof.

As used herein, the term “substrate” means a web of material capable ofmoving through a converting line. A substrate can include contiguousmaterial wherein individual units of material are connected or directlyjoined to the immediately preceding and trailing units of material. Forexample, a substrate may include a continuous web of woven material,nonwoven material, film, or the like, or combinations thereof. Asubstrate may also include interconnected absorbent articles in variousstages of manufacture. A substrate may also include a web of discreteunits of material separated by space or by other materials. For example,a substrate may include discreet absorbent articles moving through aconverting line via one or more conveyor belts or other means ofconveyance known in the art.

As used herein, the phrase “absorbent article” refers to devices whichabsorb and contain fluids, which includes bodily fluids, and morespecifically refers to devices which may be placed against or near theskin to absorb and contain the various fluids discharged from the body.In typical use absorbent articles are not intended to be laundered orotherwise restored or reused after a single use. Examples of absorbentarticles include, but are not limited to sanitary tissue products, forexample facial tissue, toilet tissue, paper towels, wipes; home careproducts, for example cleaning wipes, such as Swiffer® (The Procter &Gamble Company, Cinc., Ohio); beauty care products such as wipes andcleaning pads; feminine hygiene products, for example sanitary napkins,pantiliners, tampons, interlabial devices and the like; infant diapers;children's training pants; adult incontinence products. Non-limitingexamples of pantiliners and sanitary napkins which may be provided witha first colored region on a composite substrate and second coloredregion on a lower substrate include those manufactured by The Procter &Gamble Company of Cincinnati, Ohio, such as ALWAYS ULTRA, ALWAYSINFINITY, and ALWAYS pantiliners. Absorbent articles such as thosedisclosed in U.S. Pat. Nos. 4,324,246, 4,463,045, 6,004,893, 4,342,314,4,463,045, 4,556,146, 4,589,876, 4,687,478, 4,950,264, 5,009,653,5,267,992, and Re. 32,649 are also contemplated as being absorbentarticles that might benefit from a first and second colored region.

Absorbent articles, and their individual components, such as a liquidpervious topsheet, a secondary topsheet, an absorbent core, and asubstantially liquid impervious backsheet, have a body facing surfaceand a garment facing surface. As used herein, “body-facing surface”means that surface of the article or component which is intended to bedisposed toward or placed adjacent to the body of the wearer duringordinary use, while the “garment facing surface” is on the oppositeside, and is intended to be disposed to face away from the wearer's bodyduring ordinary use. The garment facing surface may be arranged to facetoward or placed adjacent to the wearer's undergarments when theabsorbent article is worn. In general the topsheet is operativelypermeable to the liquids that are intended to be held or stored by theabsorbent article, and the backsheet may be substantially impermeable orotherwise operatively impermeable to the intended liquids. The absorbentarticle may also include components such as liquid wicking layers,liquid distribution layers, barrier layers, and the like, as well ascombinations thereof.

The term ‘color’ as referred to herein includes any primary color, forexample, white, black, red, blue, violet, orange, yellow, green, andindigo as well as any declination thereof or mixture thereof. The term‘non-color’ or ‘non-colored’ refers to the color white which is furtherdefined as those colors having an L* value of at least 80, an a* valueequal to 0±2, and a b* value equal to 0±2.

One embodiment of the method is illustrated in FIG. 1, which shows aschematic representation of a converting line 100 according to themethod of the present invention, wherein a first precursor web 101 issupplied to a contact printing station 103 within the converting line100. The contact printing station 103 prints at least one first coloredregion on the first precursor web 101. The first precursor web 101 isthen combined with a second precursor web 102 at a combination apparatus250 within the converting line 100 to form a composite substrate 270. Alower substrate 141 is also supplied to a non-contact printing station143 within the converting line 100. The non-contact printing station 143prints at least one second colored region on the lower substrate 141.The first precursor web 101, second precursor web 102, and lowersubstrate 141 may be supplied to the converting line 100 concurrently.

With reference to FIG. 1 the method of the present invention can have amachine-direction (MD) which extends longitudinally, and a lateralcross-direction (CD) which extends transversely. The machine-directionis the direction along which a particular substrate is transported alongand through a particular position of the converting line. Thecross-direction lies generally within the plane of the substrate beingtransported through the converting line, and is aligned perpendicular tothe machine-direction.

In one embodiment, the contact printing station 103 for printing a firstcolored region on a first precursor web 101 can comprise a flexographicprinting process 105, as shown in FIG. 2. A flexographic printingprocess 105 can use any known flexographic printing apparatus andequipment, including processing means known in the art. As shown, ink107 is supplied in a chamber 109 comprising a doctor blade, and which isin operative relationship with an anilox roller 111 to which ink 107from the chamber 109 is transferred in a uniform manner as the aniloxroller 111 rotates in the direction indicated. The anilox roller 111 isin operative relationship with a plate roller 113 such that at atransfer nip 115, ink 107 is transferred from the anilox roller 111 tothe plate roller 113. The plate roller 113 picks up ink 107 from theanilox roller 111 in a pattern corresponding to the first colored regionprinted on a first precursor web 101. The first precursor web 101 onwhich the first colored region will be printed is fed onto the centralimpression drum 117 (in any conventional manner), which is rotating inthe direction shown in FIG. 2.

As the first precursor web 101 enters the printing nip 119 formed by theoperational relationship of the surfaces of the plate roller 113 and thecentral impression roller 117, the ink 107 on the surface of the plateroller 113 makes contact with, and is transferred to, the firstprecursor web 101.

Alternatives to the described flexographic printing process can also beused in the contact printing station of the present invention. Forexample, in certain embodiments, the contact printing station maycomprise a gravure printing process 131 as illustrated in FIG. 3. In thegravure process 131, a first precursor web 101 is passed between arubber impression roller 132 and a gravure cylinder 133. The surface ofthe gravure cylinder 133 contains a large number of cells 134, which aredesigned to receive, hold, and transfer ink to the first precursor web101. Ink 135 is applied to the surface of the gravure cylinder 133downstream of a nip 137 and is removed from the land areas of thegravure cylinder 133 with a doctor blade 138. As the first precursor web101 enters the nip 137, it is pressed against the gravure cylinder 133by the rubber impression roller 132, thereby permitting the ink 135 totransfer from the gravure cylinder cells 134 and be deposited on thesurface of the substrate 101 in small colored or brightened areas 139corresponding to the individual gravure cylinder cells 134.

As shown in FIGS. 1 and 4, following contact printing, the firstprecursor web 101 and a second precursor web 102 are moved in the MD tothe nip 256 of counter-rotating interlocking rolls 252, 254 of thecombination apparatus 250. The precursor webs 101, 102 may be held insufficient web tension so as to enter the nip 256 in a generallyflattened condition by means known in the art of web handling. As eachprecursor web 101, 102 goes through the nip 256, the teeth 260 of thepatterned roll 254 interlock with the grooves 258 of the non-patternedgrooved roll 252 to force portions of the second precursor web 102 outof the plane of the second precursor web 102, and through the plane ofthe first precursor web 101 to form tufts 262. The teeth 260 “push” or“punch” fibers of second precursor web 102 through the plane of firstprecursor web 101.

As shown in FIG. 4, in certain embodiments the combination apparatus 250comprises a pair of interlocking rolls 252, 254, each rotating about anaxis A, the axes A being substantially parallel in the same plane.Non-patterned grooved roll 252 comprises a plurality of ridges 263 andcorresponding grooves 264 which extend unbroken around the entirecircumference of the non-patterned grooved roll 252. The patterned roll254 comprises a plurality of rows of circumferentially-spaced teeth 260,forming a pattern, that extend over at least a portion of patterned roll254. The individual rows of teeth 260 are separated by correspondinggrooves 258. In operation, non-patterned grooved roll 252 and patternedroll 254 interlock such that the ridges 263 of non-patterned groovedroll 252 extend into the grooves 258 of patterned roll 254; and theteeth 260 of patterned roll 254 extend into the grooves 264 ofnon-patterned grooved roll 252. The non-patterned grooved roll 252,patterned roll 254, or both can be heated by means known in the art,such as by using hot oil filled rollers or electrically-heated rollers.

In FIG. 4, the combination apparatus 250 is shown in a configurationhaving one patterned roll 254, and one non-patterned grooved roll 252.However, in certain embodiments two patterned rolls 254 may be used,each patterned roll 254 having either the same or differing patterns ofteeth 260, in the same or different corresponding regions of therespective rolls. Such a combination apparatus can produce webs withtufts 262 protruding from both sides of the composite substrate 270. Incertain embodiments the teeth 260 of the patterned roll 254 correspondto a colored region printed on the first precursor web 101, such thatthe tufts 262 produced in the composite substrate 270 correspond to thefirst colored region printed on the composite substrate 270. The firstcolored region helps mask the fluid absorbed by the second precursor web102 of the composite substrate 270.

FIG. 5 shows a composite substrate 270 comprising generally planar,two-dimensional precursor webs, such as second precursor web 102 andfirst precursor web 101. Second precursor web 102 may be a fibrousnonwoven web and first precursor web 101 may be a polymer film. Theprecursor webs 101, 102 (and any additional webs) can be joined byadhesive, thermal bonding, ultrasonic bonding and the like. As disclosedabove, the precursor webs 101, 102 of composite substrate 270 can bejoined by intertwining mechanical engagement resulting from theformation of tufts 262. A representative tuft 262 for the embodiment ofthe composite substrate 270 shown in FIG. 5 is shown in a furtherenlarged view in FIG. 6. A tuft can be a plurality of raised loops offibers or a pile of fibers integral with and out of plane of the webfrom which the loops or pile extend.

Composite substrate 270 has a first side 272 and a second side 274, theterm “sides” being used in the common usage of generally planartwo-dimensional webs, such as paper and films that have two sides whenin a generally flat condition. Each precursor web 101, 102 has a firstsurface 276 and 278, respectively, and a second surface 280 and 282,respectively (shown in FIG. 5). The first surfaces 276 and 278 can bebody facing surfaces and the second surfaces 280 and 282 can be garmentfacing surfaces. Composite substrate 270 has a machine direction (MD), across machine direction (CD), and an out of plane Z-direction, as isknown in the art of web manufacture.

In one embodiment, the first side 272 of composite substrate 270 isdefined by exposed portions of the first surface 276 of the firstprecursor web 101 and at least one, but in certain embodiments aplurality of, discrete tufts 262 which are integral extensions of thefibers of a nonwoven second precursor web 102. As shown in FIG. 6, eachtuft 262 can comprise a plurality of looped, aligned fibers 284extending through the first surface 276 of the first precursor web 101and outwardly from the first surface 276 thereof

The second precursor web 102 can be a fibrous woven or nonwoven webcomprising fibers having sufficient elongation properties to haveportions formed into tufts. For example, in certain embodiments a secondprecursor web 102 can be a fibrous woven or nonwoven web comprisingelastic or elastomeric fibers, for instance natural fibers, such as woodor cotton fibers; synthetic fibers, such as polymeric fibers—for examplepolyester, polypropylene, or polyethylene fibers; or from a combinationof natural and synthetic fibers. Elastic or elastomeric fibers can bestretched at least about 50% and return to within 10% of their originaldimension. Tufts 262 can be formed from elastic fibers if the fibers aresimply displaced due to the mobility of the fiber within the nonwoven,or if the fibers are stretched beyond their elastic limit and areplastically deformed. In certain embodiments tufts are formed by movingfibers out-of-plane in the Z-direction at discrete, localized, portionsof the second precursor web 102. The moving out-of-plane can be due tofiber displacement, that is, the fiber is able to move relative to otherfibers and be “pulled” out-of-plane. In certain embodiments, however thefibers of the non-woven second precursor web 102 are at least partiallystretched out-of-plane and permanently deformed to produce tufts 262.Therefore, in one embodiment, depending on the desired height of tufts262, the constituent fibers of a nonwoven second precursor webs 102 canexhibit an elongation to break of at least about 5%, of at least about10%, of at least about 25%, of at least about 50%, or of at least about100%. Elongation to break can be determined by simple tensile testing,such as by use of Instron tensile testing equipment, and can generallybe found on material data sheets from suppliers of such fibers or webs.

First precursor web 101 can be a polymer film web having sufficientintegrity to be formed into the composite by the process describedabove, for example apertured formed thermoplastic films, aperturedplastic films, hydroformed thermoplastic films, and reticulatedthermoplastic films. In certain embodiments the first precursor web 101may have sufficiently less elongation properties relative to the secondprecursor web 102, such that upon experiencing the strain of fibers fromsecond precursor web 102 being moved out-of-plane in the direction offirst precursor web 101, first precursor web 101 will rupture, forexample by tearing due to extensional failure, such that portions ofsecond precursor web 102 can extend through the plane of the firstsurface 276 of first precursor web 101 to form tufts 262 on first side272 of composite substrate 270 and a cap 287 will remain over the distalportion of each tuft 262.

As shown in FIGS. 5 and 6 tufts 262 extend above openings 286 in thefirst precursor web 101. The openings 286 are formed by locallyrupturing the first precursor web 101 by the process described above.Rupture may involve a simple splitting open of the first precursor web101, such that a portion or portions of first precursor web 101 can bedeflected or moved out-of-plane (the plane of first precursor web 101)to form cap structures, referred to herein as a cap, or caps, 287. Caps287 are integral extensions of the first precursor web 101, which may bea polymer film. The form and structure of caps 287 may be dependent uponthe material properties of the first precursor web 101. In certainembodiments at least part of a distal portion 288 of each of the tufts262 is covered by a cap 287. A cap 287 can be a tunnel shaped cap 287having a first opening 290 and a second opening 292. The first opening290 comprises a location of rupture 294 in the first precursor web 101and the tuft 262 extends above the location of rupture 294. A cap 287 isformed by rupturing the first precursor web 101 in at least one locationof rupture 294 and stretching the polymer film out of plane of the firstsurface 276 of the first precursor web 101 to form an opening such as afirst opening 290 or a first opening 290 and a second opening 292. Thelocation of rupture 294 can define at least part of the boundary of theopening 286. The first precursor web 101 can be fluid impervious in theabsence of a rupture 294.

As shown in FIG. 1, in the method of the present invention theconverting line 100 also comprises a non-contact printing station 143.The non-contact printing station 143 may use a non-contact process toprint at least one second colored region on a lower substrate. In oneembodiment the non-contact printing station 143 may include an inkjetprocess. In this embodiment the non-contact printing station 143includes an inkjet printing station capable of printing a colored regionon a lower substrate 141, such as a nonwoven or cellulose based web foruse as a secondary topsheet. The lower substrate 141 can be provided tothe non-contact printing station 143 by any suitable means; for exampleas shown in FIG. 1, through the use of a first metering device 145 (forexample an omega roll or an s-wrap device), a series of idle rollers 147and 149, and a second metering device 151 (for example a vacuumconveyor). Both the metering devices 145 and 151 create a desiredtension in the lower substrate 141 and move the lower substrate 141 in amachine direction MD at a desired linear velocity V, which can be ashigh as about 10 meters/second or even greater. However, the presentinvention is applicable at any other linear velocity V of the lowersubstrate, for example, at least 5 meters/second, at least 4meters/second, at least 3 meters/second, at least 2 meters/second, andlower (which occurs during a startup of the converting line when theconverting line speed, including the linear velocity V of the lowersubstrate 141, is gradually increasing from a zero to a desiredproduction speed).

As shown in FIG. 1, the inkjet printing station 143 in certainembodiments may include a dual-head arrangement comprising a firstinkjet print head 153 and a second inkjet print head 155, disposed at aspatial distance 157 extending in the machine direction MD. However, itshould be noted that the first and the second print heads 153, 155 couldbe disposed from each other at any desired spatial distance. In certainembodiments the first inkjet print head 153 and second inkjet print head155 can be oriented in a side-by-side manner in a cross-direction acrossthe lower substrate. This side-by-side orientation increases thewidthwise coverage of the inkjet print heads 153, 155.

The first and the second print heads 153 and 155 can be any type that issuitable to print a colored region, and may be disposed at a certainsuitable distance from the lower substrate 141. In certain embodimentsthe distance may be form about 0.5 mm to about 3 mm, and in certainother embodiments from about 1 mm to about 2 mm. In certain embodiments,the inkjet printing station may comprise one or more digital printers,such as a continuous binary array allowing for a greater ink dropvelocity than other inkjet printers, allowing for a wider gap betweenthe print head and web to provide a quality image.

The print heads 153 and 155 can be supplied with ink from a common inksource; although in certain embodiments, separate ink sources can bealso utilized.

Each of the print heads 153 and 155 includes a multiplicity of jetsdispensing a multiplicity of substantially uniform ink dots. In oneembodiment of the present invention, each of the print heads 153 and 155can include 256 jets, forming a linear configuration in thecross-direction of about 2 inches long (about 50.8 mm). Therefore, eachof the print heads 153 and 155 can print an ink image containing 256 inkdots extending linearly about 50.8 mm across the lower substrate 141.This arrangement is sufficient for printing any image of up to about50.8 mm wide, as measured in the cross-direction of the lower substrate141. However, any number of jets per a print head can be provided toprint a desired width W of a colored region, which in certainembodiments, for absorbent articles produced in the process of thepresent invention can vary from about 5 mm to about 185 mm, in certainother embodiments from about 20 mm to about 105 mm.

With respect to the print heads having 256 jets, such print heads areavailable from Videojet Technologies, Inc., (Wood Dale, Ill.). Theprinting station 143 can be a part of an inkjet printing system that isalso available from Videojet Technologies, Inc., as the BX6000 seriesinkjet print system including an ink source and a controller forproviding ink and controlling jets forming individual ink droplets.

In the BX6000 series inkjet print system a continuous binary array canbe used, wherein the ink droplets are dispensed from all of the jets ofthe print heads 153 and 155 continuously, but only certain ink dropletsare allowed to reach the lower substrate 141 at desired locations toform a printed image. The other ink droplets can be prevented fromreaching the lower substrate 141 by deflecting the ink droplets into arecycling flow for a continuous re-use. The operation of the individualink jets of each print head can be controlled by a controller includedin the BX6000 series system.

In certain embodiments, in place of a continuous type of the inkjetprinting system the inkjet printing system can be an on-demand typeinkjet printing system (such as thermal ink jet or Peizo Drop onDemand), wherein ink typically is not recycled and ink droplets areformed on a demand basis and in a desired order to print a coloredregion.

Referring again to FIG. 1, each of the first and the second print heads153 and 155 is capable of printing colored regions separately from eachother. For example, in certain embodiments when the first print head 153is in a print mode, the second print head 155 can be in a standby oridle mode (is not printing an image on the lower substrate 141).Conversely, when the first print head 153 is in a standby mode, thesecond print head 155 can be in a print mode, printing an image. Asdescribed above, in both modes of operation, the print mode and thestandby mode, the droplet formation by each of the 256 jets of each ofthe print heads 153 and 155 occurs continuously; however, in the standbymode, all of the dispensed droplets are deflected and recycled into arecycled ink flow, but in the print mode the un-deflected droplets aredeposited on the lower substrate 141 and the deflected droplets arerecycled into the recycle ink flow. In certain other embodiments, thefirst print head 153 and second print head 155 can print colored regionsat the same time to print two colors. In another embodiment, the firstprint head 153 and second print head 155 can be offset in the CD toincrease the CD resolution, for example from 128 dpi to 256 dpi. A stillfurther embodiment the first print head 153 and second print head 155can be used to print the same colored region twice to increase colorintensity.

Referring again to FIG. 1, after the inkjet printing, the lowersubstrate 141 travels to a cut and placement device 159, capable ofsevering the lower substrate 141 into individual sheets comprising, inthis embodiment the secondary topsheet 41, and then placing thesecondary topsheets 41 at a desired pitch interval P onto a topsheet web270 produced from the composite substrate 270 moving in a machinedirection MD at a desired velocity. The topsheet web 270 can be providedand metered at a desired velocity by any suitable means known to oneskilled in the art. Then, an absorbent core web 160 (which can be alsoprovided and metered by any suitable means) is cut into individualabsorbent cores 60, which are then placed onto a secondary topsheet 41,previously disposed on the topsheet web 270. The cutting and placingoperations of the absorbent core 60 can be provided by a cut-and-slip orcut-and-lay device 161 or any suitable web cutting and placing deviceknown in the art. Further, a backsheet web 170 (which can be alsoprovided and metered by any suitable means) is deposited onto theabsorbent cores 60 to provide a sandwiched-type web 175, which issubsequently bonded together and cut into individual absorbent articles200. The bonding, cutting, and placing operations of the sandwiched-typeweb 175 can also be provided by any suitable means known in the art, forexample, by a final knife 176. A variety of suitable securing mechanismsor systems known to one of skill in the art may be utilized to achieveany bonding. Examples of such securing mechanisms can include, but arenot limited to, the application of adhesives in a variety of patternsbetween the two adjoining surfaces, entangling at least some portions ofone absorbent body component with portions of the adjacent surface ofanother component, or fusing at least portions of the adjacent surfaceof one component to portions of another component of the absorbent. Theindividual absorbent articles, which in this instance are femininesanitary napkins 200, can then be transported by any suitable means,such as a conveyor 178, to other downstream operations, such as folding,wrapping, and packing.

Referring now to FIG. 7, a top view of an absorbent article producedfrom the method of the present invention is shown, which in thisillustrated embodiment is a feminine sanitary napkin 200. The femininesanitary napkin 200 can have a substantially planar configuration and acentral region 202. The central region 202 is the in-plane center ofmass of the feminine sanitary napkin 200. The central region 202 is atthe intersection between the longitudinal centerline L and transversecenterline T. The transverse centerline T is perpendicular to thelongitudinal centerline L. The feminine sanitary napkin 200 can besymmetrical or asymmetrical about the transverse centerline T. Thefeminine sanitary napkin 200 has a body facing surface 204 comprising atopsheet 208 produced from a composite substrate, an absorbent core 60,a secondary topsheet 41 produced from a lower substrate positionedbetween the topsheet 208 and absorbent core 60, and a garment facingsurface 206 comprising a liquid impervious backsheet 209.

In certain embodiments the secondary topsheet may be compliant, softfeeling, and non-irritating to the wearers skin and hair. Further, thesecondary topsheet is liquid pervious, permitting liquids, such asmenses or urine, to readily penetrate through its thickness. A suitablesecondary topsheet may be manufactured from a wide range of materialssuch as woven and nonwoven materials, for example a nonwoven web offibers; polymeric materials such as apertured formed thermoplasticfilms, apertured plastic films, and hydroformed thermoplastic films;porous foams; reticulated foams; reticulated thermoplastic films; andthermoplastic scrims. Suitable woven and nonwoven materials can becomprised of: natural fibers, such as wood or cotton fibers; syntheticfibers, such as polymeric fibers—for example polyester, polypropylene,or polyethylene fibers; or from a combination of natural and syntheticfibers. When the secondary topsheet comprises a nonwoven web, the webmay be manufactured by a wide number of known techniques. For example,the web may be spunbonded, carded, wet-laid, melt-blown, hydroentangled,combinations of the above, or the like.

The backsheet is substantially impervious to liquids, such as menses orurine and may be manufactured from a thin plastic film, although otherflexible liquid impervious materials may also be used. The backsheetprevents the exudates absorbed by the absorbent core from wetting awearer's bedding or clothes, for example bedsheets, pants, pajamas andundergarments. In certain embodiments, the backsheet can operativelypermit a sufficient passage of air and moisture vapor out of anabsorbent article, particularly out of the absorbent core, whileblocking the passage of bodily liquids. The backsheet may thus comprise:a woven or nonwoven material; polymeric films, such as thermoplasticfilms of polyethylene or polypropylene; or composite materials such as afilm-coated nonwoven material. In one embodiment, the backsheet can be abreathable backsheet such as that described in U.S. Pat. No. 6,623,464(Bewick-Sonntag et al.) issued 23 Sep. 2003.

As shown in FIG. 7 the backsheet 209 and the topsheet 208 are positionedadjacent the garment facing surface 206 and the body facing surface 204,respectively, of the absorbent core 60. In certain embodiments theabsorbent core can be joined with the topsheet, the backsheet, or bothby known attachment means, such as those described above or those wellknown in the art. However, in certain embodiments of the presentinvention the absorbent core is unattached to the topsheet, thebacksheet, or both.

The absorbent core 60 in FIG. 1 is generally disposed between thetopsheet 208 and the backsheet 209. The absorbent core 60 may compriseany absorbent material that is generally compressible, conformable,non-irritating to the wearer's skin, and capable of absorbing andretaining liquids such as urine and other certain body exudates, such asmenses. The absorbent core 60 may comprise a wide variety ofliquid-absorbent materials commonly used in feminine care articles andother absorbent articles, such as comminuted wood pulp, which isgenerally referred to as air felt. Examples of other suitable absorbentmaterials include creped cellulose wadding; melt blown polymers,including co-form; chemically stiffened, modified or crosslinkedcellulosic fibers; tissue, including tissue wraps and tissue laminates;absorbent foams such as foams formed from High Internal Phase Emulsions(HIPEs); absorbent sponges; superabsorbent polymers; absorbent gellingmaterials; or any other known absorbent material or combinations ofmaterials. The absorbent core may further comprise minor amounts(typically less than 10%) of non-liquid absorbent materials, such asadhesives, waxes, oils and the like. Examples of absorbent structuresthat may be used in the present invention are found in U.S. Pat. No.4,834,735 (Alemany et al.) issued 30 May 1989; U.S. Pat. No. 5,625,222(DesMarais et al.) 22 Jul. 1997.

The absorbent core may also include one or more superabsorbentmaterials. Superabsorbent materials suitable for use in the presentinvention are known to those skilled in the art, and may be in anyoperative form, such as particulate form. The superabsorbent materialcan be a water-swellable, generally water-insoluble, hydrogel-formingpolymeric absorbent material, which is capable of absorbing at leastabout 20, in certain embodiments about 30, and in additional embodimentsabout 60 times or more its weight in physiological saline (for example0.9 wt % NaCl). The hydrogel-forming polymeric absorbent material may beformed from organic hydrogel-forming polymeric material, which mayinclude natural material such as agar, pectin, and guar gum; modifiednatural materials such as carboxymethyl cellulose, carboxyethylcellulose, and hydroxypropyl cellulose; and synthetic hydrogel-formingpolymers. Synthetic hydrogel-forming polymers include, for example,alkali metal salts of polyacrylic acid, polyacrylamides, polyvinylalcohol, ethylene maleic anhydride copolymers, polyvinyl ethers,polyvinyl morpholinone, polymers and copolymers of vinyl sulfonic acid,polyacrylates, polyacrylamides, polyvinyl pyridine, and the like. Othersuitable hydrogel-forming polymers include hydrolyzed acrylonitrilegrafted starch, acrylic acid grafted starch, and isobutylene maleicanhydride copolymers and mixtures thereof. The hydrogel-forming polymersare preferably lightly crosslinked to render the material substantiallywater insoluble. Crosslinking may, for example, be by irradiation orcovalent, ionic, Van der Waals, or hydrogen bonding. Suitable materialsare available from various commercial vendors, such as the Dow ChemicalCompany and Stockhausen, Inc. The superabsorbent material may beincluded in an appointed storage or retention portion of the absorbentarticle, and may optionally be employed in other components or portionsof the absorbent article.

As shown in FIG. 7, the feminine sanitary napkin 200 can be consideredto have a viewing surface that is the body facing surface 204. Thetopsheet 208 and secondary topsheet 41 are visible (can be visuallyperceived by the observer) when the body facing surface 204 is presentedtowards an observer even though the topsheet is between the observer andthe secondary topsheet 41.

When the body facing surface 204 of the feminine sanitary napkin 200 isviewed, the feminine sanitary napkin 200 can have a background region214. The background region 214 is a region that is visuallydistinguishable from the first colored region 216 and second coloredregion 218. The background region 214 can be white or any other colorvisually distinguishable from the first colored region 216 and secondcolored region 218. Colors are believed to be visually distinguishableif there is a □E between the two colors of at least about 1.

The topsheet 208 comprises the first colored region 216. The firstcolored region 216 can be the constituent color of the topsheet 208 withthe background region 214 rendered to have a color that differs from theconstituent color of the topsheet 208. The first colored region 216 cancorrespond to a pattern of tufts 262 formed in the topsheet 208. Thefirst colored region 216 helps mask the absorbed bodily fluids that maybe visible to a wearer due to retention of the absorbed bodily fluids bythe second precursor web 102 of the topsheet 208 formed from a compositesubstrate 270. The first colored region 216 can be provided on, forinstance, the body facing side of the topsheet 208 or the garment facingside of the topsheet 208. Similarly, the secondary topsheet 41 comprisesthe second colored region 218. The second colored region 218 can be theconstituent color of the secondary topsheet 41 with the backgroundregion 214 rendered to have a color that differs from the constituentcolor of the secondary topsheet 41. The second colored region 218 can beprovided on, for instance, the body facing side of the secondarytopsheet 41 or the garment facing side of the secondary topsheet 41. Thesecond colored region 218 can be coincident with the longitudinalcenterline L. That is, a portion of the second colored region 218 canintersect with the longitudinal centerline L.

When the body facing surface 204 is viewed, the background region 214,first colored region 216, and second colored region 218 are viewable byan observer. The first colored region 216 and second colored region 218are visibly distinct from the background region 214 in that firstcolored region 216 and second colored region 218 each differ in color ascompared to the background region 214. The first colored region 216 andthe background region 214 can differ in color by a □E, which isdiscussed in more detail below, of at least about 1. The first coloredregion 216 and the background region 214 can differ in color by a □E,which is discussed in more detail below, of at least about 3, if morevisual distinctiveness is desired.

Similarly, the second colored region 218 and the background region 214can differ in color by a □E of at least about 1. The first coloredregion 216 and the second colored region 218 can both differ in color ascompared to the background region 214 by a □E of at least about 1. Thefirst colored region 216 and the second colored region 218 can be morevisually distinguishable if there is a □E between the two colors of atleast about 3.

As shown in FIG. 7, in certain embodiments, the first colored region 216can be laterally more extensive in a direction perpendicular to thelongitudinal centerline L than the second colored region 218.

The first colored region 216 can be designed so as to be visuallycomplementary to the second colored region 218 and be presented to theviewer over a wider/more extensive portion of the body facing surface204. It is thought that by having the first colored region 216 on adifferent layer of material than the second colored region 218 that aricher visual impression can be created on the feminine sanitary napkin200. For instance, since the first colored region 216 and second coloredregion 218 are on different layers of materials, when viewed, at leastone of the colored regions will be viewed through the layer comprisingthe other colored region. A colored region viewed through another layermaterial can have a significantly different visual impression in termsof softness/diffuseness of the image, somewhat like the differencebetween a matte finished photograph versus a gloss finished photograph.

Further, if the second colored region 218 is provided by inkjetprinting, the design of the second colored region 218 can be easilychanged so that feminine sanitary napkins 200 within a single package ordifferent packages can have different designs for the second coloredregion 218. The first colored region 216 might be provided by a contactprinting apparatus that cannot be easily altered. Thus, the firstcolored region 216 can be a constant design recognizable by consumers asbeing a product from a particular brand or of a particular quality.

A first colored region 216 that is laterally more extensive than thesecond colored region 218 can also provide the impression to the wearerthat such laterally more extensive portions of the feminine sanitarynapkin 200 are capable of acquiring and retaining fluid. For instance,if the first colored region extends across a substantial portion of thefeminine sanitary napkin 200 in the cross-direction CD, viewers of thefeminine sanitary napkin 200 may interpret the first colored region 216as providing a barrier to fluid flow beyond the first colored region 216or a boundary beyond which the user should not expect fluid to pass asthe fluid travels in the machine-direction MD of the feminine sanitarynapkin 200.

The second colored region 218 can be coincident with the central region202. The central region 202, being the in-plane center of mass of thefeminine sanitary napkin 200, might be associated by the wearer as beingthe location of the feminine sanitary napkin 200 that should be proximalher vaginal opening or urethra. Designs in which the second coloredregion 218 is symmetric about the longitudinal centerline may providefor a more pleasing impression of the feminine sanitary napkin 200 thandesigns in which the second colored region 218 is not symmetric withrespect to the longitudinal centerline L.

As shown in FIG. 7, the second colored region 218 and first coloredregion 216 can be spaced apart from one another along the longitudinalcenterline. By spacing apart the first colored region 216 and secondcolored region 218, it is believed that improper phasing of the topsheet208 and secondary topsheet 41 that might occur when the two substratesare brought together during manufacture might not be so apparent to thewearer because it might be difficult to perceive relatively smalldifferences from one pad to another pad of a gap between the firstcolored region 216 and second colored region 218. The first coloredregion 216 and second colored region 218 can be separated from oneanother by the background region 214.

As shown in FIG. 7, the feminine sanitary napkin 200 has a periphery220. The background region 214 can be between the first colored region218 and the periphery 220. Such an arrangement is thought to provide foran improved visual impression in that the periphery 220 has a clean linethat is not interrupted by colored regions of the feminine sanitarynapkin 200. For the same reason, the first colored region 216 and secondcolored region 218 can be substantially surrounded by the backgroundregion 214. For instance, less than 25% of the periphery 220 can beinterrupted by the second colored region 218 or first colored region 216or the combination of the first colored region 216 and second coloredregion 218. The second colored region 218 can be surrounded by thebackground region 214.

The second colored region 218, as shown in FIG. 7, can be asubstantially elongated shape. Without being bound by theory, it isbelieved that substantially elongated shapes that are aligned with or onthe longitudinal centerline L may make the feminine sanitary napkin 200look as if the feminine sanitary napkin 200 is slim as compared to afeminine sanitary napkin devoid of such an elongated shape. A wearermight associate such an impression with a belief that the apparentlynarrow feminine sanitary napkin 200 will fit comfortably in the crotchof their panty. The second colored region 218, in certain embodimentscan have a width less than about 50% of the maximum distance betweenportions of the periphery 220 coincident with the transverse centerlineT. Ovals and generally rectangular shaped shapes are examples ofsubstantially elongated shapes. To provide for more visually coherentdesigns, the first colored region 216 and second colored region 218 canbe within a CIELab color space volume of less than about 200. CIELabcolor space volume is discussed in more detail below. With such anapproach, the colors of the first colored region 216 and second coloredregion 218 do not differ substantially to the eye of most viewers andviewers might perceive the colors to be the same or shades or subtlevariations of the same color. Subtle variations in color are thought tobe pleasing to the eye, much like sample paint chips having slightlyvarying colors found in home decoration stores that can be pleasurableand interesting to view. If less distinctiveness between the firstcolored region 216 and second colored region 218 is desired, the firstcolored region 216 and second colored region 218 can be within a CIELabcolor space volume of less than about 50.

The first colored region 216 can be substantially arcuate shaped.Arcuate shaped first colored regions 216 are thought to be perceived bywearers as barriers to flow of liquid in the absorbent article or asproviding an indication to a wearer that they may not want fluid to passbeyond such a colored region or that once such fluid flow has occurredthey may want to be prepared to wear a fresh product in the near future.

Arcuate shapes include, but are not limited to, shapes generallycorresponding to those found on common keyboards including the greaterthan symbol, parenthesis, circumflex (also referred to as the caretsymbol), and bracket as well as generally c-shaped shapes, and slightmodifications of any of these previously mentioned shapes. Arcuateshapes, as defined herein, can be generally curved like a letter C orcan be more angular such as the symbol <. Thus, arcuate shapes do notnecessarily have any particular curvature.

A cross section of the feminine sanitary napkin 200 illustrated in FIG.7 is shown in FIG. 8. Each component of the feminine sanitary napkin 200can be considered to have a body facing side 215 and a garment facingside 217. The body facing side 215 being oriented towards the wearer'sbody when the absorbent article is in-use and the garment facing side217 opposing the body facing side 215.

FIG. 9 is a schematic of a secondary topsheet 41 of a feminine sanitarynapkin having a second colored region 218. FIG. 10 is a schematic of atopsheet 208 of a feminine sanitary napkin having a first colored region216. The secondary topsheet 41 illustrated in FIG. 9 can be registeredwith the topsheet 208 illustrated in FIG. 10 to create a femininesanitary napkin 200 having a visual impression similar to thatillustrated in FIG. 7.

The color of the first colored region 216 and second colored region 218and background region 214 are measured by the reflectancespectrophotometer according to the colors L*, a*, and b* values. The L*,a*, and b* values are measured from the body facing surface 204 of thefeminine sanitary napkin 200 inboard of the periphery 220 of thefeminine sanitary napkin 200. The difference in color is calculatedusing the L*, a*, and b* values by the formulaΔE=[(L*_(X)·−L*_(Y))²+(a*_(X)·−a*_(Y))²+(b*_(X)−b*_(Y))²]^(1/2). Herein,the ‘X’ in the equation may represent the first colored region 216, thesecond colored region 218, or the background region 214 and ‘Y’ mayrepresent the color of another region against which the color of suchregion is compared. X and Y should not be the same two points ofmeasurement at the same time. In other words, for any particularcomparison of the difference in color, the location of X≠the location ofY.

Where more than two colors are used, the ‘X’ and ‘Y’ values alternatelyinclude points of measurement in them also. The key to the ΔEcalculation herein is that the ‘X’ and ‘Y’ values should not stem fromthe same measured point on the viewing surface. In those instances wherethere is effectively no background region 214 within the confines of themeasurement area, the ‘X’ values should flow from a point different inspatial relationship to the ‘Y’ values, but within the confines of theabsorbent core periphery.

Reflectance color is measured using the Hunter Lab LabScan XEreflectance spectrophotometer obtained from Hunter Associates Laboratoryof Reston, Va. A feminine sanitary napkin 200 is tested at an ambienttemperature between 65° F. and 75° F. and a relative humidity between50% and 80%.

The spectrophotometer is set to the CIELab color scale and with a D65illumination. The Observer is set at 10° and the Mode is set at 45/0°.Area View is set to 0.125″ and Port Size is set to 0.20″ for films. Thespectrophotometer is calibrated prior to sample analysis utilizing theblack glass and white reference tiles supplied from the vendor with theinstrument. Calibration is done according to the manufacturer'sinstructions as set forth in LabScan XE User's Manual, Manual Version1.1, Aug. 2001, A60-1010-862. If cleaning is required of the referencetiles or samples, only tissues that do not contain embossing, lotion, orbrighteners should be used (e.g., PUFFS tissue). Any sample point on theabsorbent article containing the imparted color to be analyzed can beselected.

The feminine sanitary napkin 200 is placed over the sample port of thespectrophotometer with a white clamp disk placed behind the femininesanitary napkin 200. The feminine sanitary napkin 200 is to be in asubstantially flat condition and free of wrinkles.

The feminine sanitary napkin 200 is removed and repositioned so that aminimum of six readings of color of the body facing surface 204 areconducted. If possible (e.g., the size of the imparted color on theelement in question does not limit the ability to have six discretelydifferent, non-overlapping sample points), each of the readings is to beperformed at a substantially different region on the externally visiblesurface so that no two sample points overlap. If the size of theimparted colored region requires overlapping of sample points, only sixsamples should be taken with the sample points selected to minimizeoverlap between any two sample points. The readings are averaged toyield the reported L*, a*, and b* values for a specified color on anexternally visible surface of an element.

In calculating the CIELab color space volume, V, maximum and minimum L*,a*, and b* values reported are determined for a particular set ofregions to be measured. The maximum and minimum L*, a*, and b* valuesreported are used to calculate the CIELab color space volume, V,according to the following formula:

$V = {\frac{4}{3}{{\frac{\Delta\; L^{*}}{2}{\frac{\Delta\; a^{*}}{2}}\frac{\Delta\; b^{*}}{2}}}}$

Within the above formula, ΔL* is the difference in L* values between thetwo colored regions being compared and is calculated by:ΔL*=L*_(X)−L*_(Y). The Δa* is the difference in a* values between thetwo colored regions being compared and is calculated by:Δa*=a*_(X)−a*_(Y). The Δb* is the difference in b* values between thetwo colored regions being compared and is calculated by:Δb*=b*_(X)−b*_(Y). The CIELab color space volume can result in a solidsubstantially ellipsoidal in shape. If ΔL*, Δa*, and Δb* are equal, thesolid will be spherical. As used herein, a “solid” refers to themathematical concept of a three-dimensional figure having length,breadth, and height (or depth). An ellipsoidal volume is preferred tocalculate volume because an ellipsoid generally requires the dimensionaldifferences of ΔL*, Δa*, and Δb* to be relatively more uniform thanother solids. Furthermore, it is believed that ellipsoidal volumes aremore visually acceptable (less detectable color mismatch by humanperception) than spherical volumes.

In some embodiments, the imparted colors of at least two externallyvisible surfaces of discrete elements will occupy a CIELab color spacevolume of less than about 200. The externally visible surfaces areanalyzed according to the Test Method described below. Upon analysis,the inherent color of an element comprising an externally visiblesurface will yield L*, a*, and b* coordinates. The CIELab color spacevolume is then calculated using the formula presented above. Theresulting volume can be less than about 200. The resulting volume can beless than about 50.

It should be recognized that the imparted colors of more than twodiscrete colored regions having a visible surface may occupy theaforementioned CIELab color space volumes. In calculating the CIELabcolor space volume for more than two elements, the CIELab color spacevolume is calculated using the maximum and minimum L*, a*, and b* from aset of elements. The maximum color values and minimum color values areused to calculate V according to the formula presented above.

The dimensions and values disclosed herein are not to be understood asbeing strictly limited to the exact numerical values recited. Instead,unless otherwise specified, each such dimension is intended to mean boththe recited value and a functionally equivalent range surrounding thatvalue. For example, a dimension disclosed as “40 mm” is intended to mean“about 40 mm.”

Every document cited herein, including any cross referenced or relatedpatent or application, is hereby incorporated herein by reference in itsentirety unless expressly excluded or otherwise limited. The citation ofany document is not an admission that it is prior art with respect toany invention disclosed or claimed herein or that it alone, or in anycombination with any other reference or references, teaches, suggests ordiscloses any such invention. Further, to the extent that any meaning ordefinition of a term in this document conflicts with any meaning ordefinition of the same term in a document incorporated by reference, themeaning or definition assigned to that term in this document shallgovern.

While particular embodiments of the present invention have beenillustrated and described, it would be obvious to those skilled in theart that various other changes and modifications can be made withoutdeparting from the spirit and scope of the invention. It is thereforeintended to cover in the appended claims all such changes andmodifications that are within the scope of this invention.

What is claimed is:
 1. A method of producing a multi-layered absorbentarticle, the method comprising the steps of: a. providing an absorbentarticle converting line; b. supplying a first precursor material to theconverting line; c. printing a first composition to the first precursormaterial; d. supplying a second precursor material to the convertingline; e. producing a composite substrate from the first and secondprecursor materials; f. supplying a lower substrate to the convertingline; g. printing a second composition to the lower substrate; h.combining the composite substrate with the lower substrate to produce alaminate web; and i. cutting the laminate web into individual absorbentarticles, wherein the method of printing of the first composition andthe second composition is via contact printing or non-contact printing,and wherein the method of printing of the first composition is differentthan the method of printing of the second composition.
 2. The method ofclaim 1, wherein the first precursor web is a polymer film.
 3. Themethod of claim 1, wherein the second precursor web comprises fibers. 4.The method of claim 3, wherein the second precursor web is an airlaidcellulosic mat.
 5. The method of claim 1, wherein the first compositionforms a first colored region and the second composition forms a secondcolored region, wherein the first colored region is disposedlongitudinally outboard of the second colored region.
 6. The method ofclaim 1, wherein the first precursor material comprises a continuous webof material.
 7. The method of claim 1, wherein the second precursormaterial comprises a continuous web of material.
 8. The method of claim1, wherein the lower substrate comprises a continuous web of material.9. The method of claim 1, wherein the lower substrate comprises aplurality of discrete pieces of material.
 10. The method of claim 1,wherein the first composition is printed to a surface of the firstprecursor web that faces the lower substrate.
 11. The method of claim 1,wherein the second composition forms a second colored region, andwherein the second composition is printed to a surface of the lowersubstrate that faces the composite substrate.
 12. The method of claim10, wherein the second composition forms a second colored region, andwherein the second composition is printed to a surface of the lowersubstrate that faces the composite substrate.
 13. The method of claim 9,wherein the first colored region and the second colored region do notoverlap with one another.
 14. The method of claim 1, wherein theabsorbent article is at least one of facial tissue, toilet tissue, papertowels, cleaning wipes, cleaning pads, sanitary napkins, pantiliners,tampons, interlabial devices, infant diapers, children's training pants,adult incontinence products, or absorbent wipes.
 15. The method of claim2, wherein the polymeric film comprises apertures.
 16. The method ofclaim 1, wherein the laminate web forms a portion of a feminine sanitarynapkin, wherein the first precursor web forms a portion of a topsheetand wherein the lower substrate forms a portion of a secondary topsheet.17. The method of claim 1, further comprising the step of severing thelower substrate into individual sheets and placing the individual sheetsonto the composite web.
 18. The method of claim 17, further comprisingthe step of providing an absorbent core web and cutting the absorbentcore web into individual absorbent cores, and placing the individualabsorbent cores onto the individual sheets of lower substrate.
 19. Themethod of claim 18, further comprising the step of placing a backsheetweb over the individual absorbent cores to form a sandwich type web,bonding the sandwich type web, and cutting the sandwich type web. 20.The method of claim 2, wherein the polymer film is a hydroformed film.